Delivering Physical Products at Scale Through Cross-Functional Collaboration Across Global Teams

Product Development

September 2012 to May 2017

Cross-functional collaboration · Physical product design · Engineering and manufacturing alignment · Technical problem solving · Rapid iteration and prototyping · Stakeholder management · Design advocacy · Global team coordination · Performance and safety testing · Supplier collaboration

My Role

Product Development Design and Release Engineer

As a member of the North American Product Development team based in Dearborn, Michigan, I worked with engineering, manufacturing, and supplier teams around the globe to meet functional and safety requirements for vehicle seating and restraint systems. My work sat at the intersection of design intent, technical feasibility, and manufacturing reality — requiring constant collaboration across teams with different priorities and constraints.

Project Summary

Across multiple vehicle programs including the Ford Explorer, Lincoln Aviator, and Ford Explorer Fold-Flat Seats, I worked within a global product development environment where getting anything done required aligning engineering, manufacturing, suppliers, and leadership simultaneously. The challenge was never just the technical problem — it was navigating the organizational complexity around it while keeping the product moving forward on schedule and within cost. Working primarily on seating and restraint systems, my success depended entirely on understanding and collaborating with every team that touched the product.

The Challenge

Physical product development in a global automotive environment is a study in competing constraints. Safety requirements are non-negotiable. Manufacturing feasibility determines what is actually buildable. Cost targets shape every decision. And launch timelines wait for no one.

The design challenge was finding solutions that satisfied all of those dimensions simultaneously not sequentially. A design that passed safety testing but couldn't be manufactured at cost wasn't a solution. A design that met cost targets but introduced quality issues wasn't a solution either. Every decision required understanding the full system of constraints and finding the path that worked for all of them.

Working across global teams added another layer of complexity. Aligning on requirements, communicating design intent, and resolving issues across time zones, functions, and organizational boundaries required as much interpersonal and communication skill as technical ability.

The Question

How do we design seating and restraint systems that meet safety, performance, and manufacturing requirements while keeping global teams aligned and programs on schedule?

The Strategy

Bring teams in early to prevent late blockers.

One of the most consistent strategies I applied was pulling engineering, manufacturing, and supplier teams into the design process before problems surfaced. Last-minute blockers in physical product development are expensive and sometimes impossible to resolve without compromising the product. Early collaboration was the most effective risk management tool available.

Iterate fast with the right partners.

Rather than waiting for perfect designs before testing, I worked with suppliers to prototype and test solutions quickly, using real-world feedback to refine rather than assuming a design would perform as expected. Rapid iteration kept decisions grounded in what actually worked.

Use data to drive decisions and resolve disagreements.

In a technical environment with strong opinions across teams, data was the most effective alignment tool. Performance testing results, manufacturing feedback, and cost analysis gave every stakeholder a shared basis for decisions reducing back-and-forth and moving programs forward.

Bridge the gap between design intent and technical execution.

My role consistently required translating between what a design was trying to achieve and what engineering and manufacturing teams needed to execute it. That meant understanding both sides deeply enough to find solutions neither team would have reached on their own.

The Execution

Ford Explorer Front Seats

Collaborated with the Global Interior Design Studio in Dearborn on surface design for the Explorer front seats, advocating for seating development requirements within a design process driven by aesthetics and brand direction. Navigating the tension between design vision and functional requirements required building trust with both the design studio and the engineering team and finding solutions that genuinely served both.

Lincoln Aviator Captain Seats

Developed seating designs with other seat component engineers focused specifically on delivering seating positions that met crash safety requirements. Safety-critical work in a global program demanded precision, clear documentation, and tight coordination with engineering and testing teams across functions and geographies.

Ford Explorer Fold-Flat Seats

Worked with suppliers to prototype and measure functional performance and production feasibility for the Explorer's fold-flat seat system. This was hands-on, iterative work testing in the real world, identifying gaps, and refining designs until they met both performance standards and manufacturing requirements.

Cross-Functional and Global Coordination

Across all programs, I led communication between teams to bridge gaps between design intent and technical execution. Working with engineering, manufacturing, and supplier teams around the globe meant adapting communication style, anticipating where misalignment could surface, and staying proactive about keeping everyone working from the same understanding.

Project Outcomes

Launched multiple vehicle features and systems on schedule, aligning business, technical, and safety requirements across complex, global programs. Specific measurable outcomes from this work are proprietary to Ford, but the consistent thread across every program was the ability to move cross-functional teams forward, resolving competing priorities, translating between disciplines, and keeping products on track from design through production.

What's Next

The skills built in this environment, navigating technical complexity, aligning global stakeholders, iterating under real constraints, and advocating for quality within systems that push back, have carried directly into every role since. The context changed from physical products to digital experiences and service design, but the method is the same: understand the full system, find where constraints and goals overlap, and build solutions that work for everyone in the room.

What This Demonstrates

This role shows that my ability to listen, simplify, and solve was developed in one of the most demanding cross-functional environments there is.

Listening

In a global engineering environment, listening meant understanding what manufacturing needed, what suppliers could actually deliver, what safety testing was telling us, and what design intent required all at once. Getting to a workable solution depended on hearing all of it clearly.

Simplifying

Physical product development generates enormous complexity. My job was to translate across disciplines, surface the decisions that actually mattered, and help teams find paths forward through constraints that could have stalled programs entirely.

Solving

The problems here were real, expensive, and time-sensitive. Solving them required technical understanding, organizational navigation, and the ability to hold the full picture while working on the details. That combination is what I bring to every project I work on today.